Exponential Stability of the Mono-tubular Heat Exchanger Equation with Time Delay in Boundary Observation
Fu Zheng, Cheng-li Zhang, Bao-zhu Guo

TL;DR
This paper investigates the exponential stability of a heat exchanger model with boundary observation and time delay, establishing conditions under which the system remains stable using semigroup theory.
Contribution
It provides a novel analysis of stability for delayed boundary control systems via semigroup and spectral methods, with conditions independent of delay length.
Findings
Existence of a bounded $C_{0}$-semigroup for the closed-loop system
Spectral analysis confirming the spectrum determined growth condition
A delay-independent sufficient condition for exponential stability
Abstract
In the present paper, the exponential stability of the mono-tubular heat exchanger equation with boundary observation possessing a time delay and inner control is investigated through a simply proportional feedback. Firstly, the close-loop system is translated into an abstract Cauchy problem in the suitable state space. A uniformly bounded -semigroup generated by the close-loop system, which means that the unique solution of the system exist, is shown. Secondly, the spectrum configuration of the closed-loop system is analyzed and the eventual differentiability and the eventual compactness of the semigroup are shown by the resolvent estimates on some resolvent set. This implies that the spectrum determined growth assumption hold. Finally, a sufficient condition, which is on the physical parameters in the system and independent of the time delay, of the exponential stability of the…
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Taxonomy
TopicsStability and Controllability of Differential Equations · Advanced Mathematical Modeling in Engineering · Advanced Mathematical Physics Problems
